Timeline of chemistry

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An image from John Dalton's A New System of Chemical Philosophy, the first modern explanation of atomic theory. A New System of Chemical Philosophy fp.jpg
An image from John Dalton's A New System of Chemical Philosophy, the first modern explanation of atomic theory.

This timeline of chemistry lists important works, discoveries, ideas, inventions, and experiments that significantly changed humanity's understanding of the modern science known as chemistry, defined as the scientific study of the composition of matter and of its interactions.

Contents

Known as "the central science", the study of chemistry is strongly influenced by, and exerts a strong influence on, many other scientific and technological fields. Many historical developments that are considered to have had a significant impact upon our modern understanding of chemistry are also considered to have been key discoveries in such fields as physics, biology, astronomy, geology, and materials science. [1]

Pre-17th century

Aristotle (384-322 BCE) Aristoteles Louvre.jpg
Aristotle (384–322 BCE)
Ambix, cucurbit and retort, the alchemical implements of Zosimus c. 300, from Marcelin Berthelot, Collection des anciens alchimistes grecs (3 vol., Paris, 1887-88) Zosimosapparat.jpg
Ambix, cucurbit and retort, the alchemical implements of Zosimus c. 300, from Marcelin Berthelot, Collection des anciens alchimistes grecs (3 vol., Paris, 1887–88)
Imaginative depiction of Jabir ibn Hayyan (Latin: Geber) Geber.jpg
Imaginative depiction of Jābir ibn Ḥayyān (Latin: Geber)

Prior to the acceptance of the scientific method and its application to the field of chemistry, it is somewhat controversial to consider many of the people listed below as "chemists" in the modern sense of the word. However, the ideas of certain great thinkers, either for their prescience, or for their wide and long-term acceptance, bear listing here.

c. 450 BC
Empedocles asserts that all things are composed of four primal roots (later to be renamed stoicheia or elements): earth, air, fire, and water, whereby two active and opposing cosmic forces, love and strife, act upon these elements, combining and separating them into infinitely varied forms. [2]
c. 440 BC
Leucippus and Democritus propose the idea of the atom, an indivisible particle that all matter is made of. This idea is largely rejected by natural philosophers in favor of the Aristotlean view (see below). [3] [4]
c. 360 BC
Plato coins term ‘elements’ (stoicheia) and in his dialogue Timaeus, which includes a discussion of the composition of inorganic and organic bodies and is a rudimentary treatise on chemistry, assumes that the minute particle of each element had a special geometric shape: tetrahedron (fire), octahedron (air), icosahedron (water), and cube (earth). [5]
c. 350 BC
Aristotle, expanding on Empedocles, proposes idea of a substance as a combination of matter and form. Describes theory of the Five Elements, fire, water, earth, air, and aether. This theory is largely accepted throughout the western world for over 1000 years. [6]
c. 50 BC
Lucretius publishes De Rerum Natura , a poetic description of the ideas of atomism. [7]
c. 300
Zosimos of Panopolis writes some of the oldest known books on alchemy, which he defines as the study of the composition of waters, movement, growth, embodying and disembodying, drawing the spirits from bodies and bonding the spirits within bodies. [8]
c. 800
The Secret of Creation (Arabic: Sirr al-khalīqa), an anonymous encyclopedic work on natural philosophy falsely attributed to Apollonius of Tyana, records the earliest known version of the long-held theory that all metals are composed of various proportions of sulfur and mercury. [9] This same work also contains the earliest known version of the Emerald Tablet , [10] a compact and cryptic Hermetic text which was still commented upon by Isaac Newton. [11]
c. 850–900
Arabic works attributed to Jābir ibn Ḥayyān (Latin: Geber) introduce a systematic classification of chemical substances, and provide instructions for deriving an inorganic compound (sal ammoniac or ammonium chloride) from organic substances (such as plants, blood, and hair) by chemical means. [12]
c. 900
Abū Bakr al-Rāzī (Latin: Rhazes), a Persian alchemist, conducts experiments with the distillation of sal ammoniac (ammonium chloride), vitriols (hydrated sulfates of various metals), and other salts, [13] representing the first step in a long process that would eventually lead to the thirteenth-century discovery of the mineral acids. [14]
c. 1000
Abū al-Rayhān al-Bīrūnī [15] and Avicenna, [16] both Persian philosophers, deny the possibility of the transmutation of metals.
c. 1100–1200
Recipes for the production of aqua ardens ("burning water", i.e., ethanol) by distilling wine with common salt start to appear in a number of Latin alchemical works. [17]
c. 1220
Robert Grosseteste publishes several Aristotelian commentaries where he lays out an early framework for the scientific method. [18]
c 1250
The works of Taddeo Alderotti (1223–1296) describe a method for concentrating ethanol involving repeated fractional distillation through a water-cooled still, by which an ethanol purity of 90% could be obtained. [19]
c 1260
St Albertus Magnus discovers arsenic [20] [ better source needed ] and silver nitrate. [21] [ better source needed ] He also made one of the first references to sulfuric acid. [22]
c. 1267
Roger Bacon publishes Opus Maius, which among other things, proposes an early form of the scientific method, and contains results of his experiments with gunpowder. [23]
c. 1310
Pseudo-Geber, an anonymous alchemist who wrote under the name of Geber (i.e., Jābir ibn Hayyān, see above), publishes the Summa perfectionis magisterii. This work contains experimental demonstrations of the corpuscular nature of matter that would still be used by seventeenth-century chemists such as Daniel Sennert. [24] Pseudo-Geber is one of the first alchemists to describe mineral acids such as aqua fortis or 'strong water' (nitric acid, capable of dissolving silver) and aqua regia or 'royal water' (a mixture of nitric acid and hydrochloric acid, capable of dissolving gold and platinum). [25]
c. 1530
Paracelsus develops the study of iatrochemistry, a subdiscipline of alchemy dedicated to extending life, thus being the roots of the modern pharmaceutical industry. It is also claimed that he is the first to use the word "chemistry". [8]
1597
Andreas Libavius publishes Alchemia, a prototype chemistry textbook. [26]

17th and 18th centuries

1605
Sir Francis Bacon publishes The Proficience and Advancement of Learning, which contains a description of what would later be known as the scientific method. [27]
1605
Michal Sedziwój publishes the alchemical treatise A New Light of Alchemy which proposed the existence of the "food of life" within air, much later recognized as oxygen. [28]
1615
Jean Beguin publishes the Tyrocinium Chymicum , an early chemistry textbook, and in it draws the first-ever chemical equation. [29]
1637
René Descartes publishes Discours de la méthode , which contains an outline of the scientific method. [30]
1648
Posthumous publication of the book Ortus medicinae by Jan Baptist van Helmont, which is cited by some as a major transitional work between alchemy and chemistry, and as an important influence on Robert Boyle. The book contains the results of numerous experiments and establishes an early version of the law of conservation of mass. [31]
Title page of The Sceptical Chymist by Robert Boyle (1627-91) The Sceptical Chymist.jpg
Title page of The Sceptical Chymist by Robert Boyle (1627–91)
1661
Robert Boyle publishes The Sceptical Chymist , a treatise on the distinction between chemistry and alchemy. It contains some of the earliest modern ideas of atoms, molecules, and chemical reaction, and marks the beginning of the history of modern chemistry. [32]
1662
Robert Boyle proposes Boyle's law, an experimentally based description of the behavior of gases, specifically the relationship between pressure and volume. [32]
1735
Swedish chemist Georg Brandt analyzes a dark blue pigment found in copper ore. Brandt demonstrated that the pigment contained a new element, later named cobalt. [33] [34]
1754
Joseph Black isolates carbon dioxide, which he called "fixed air". [35]
A typical chemical laboratory of the 18th century Chemielabor des 18. Jahrhunderts, Naturhistorisches Museum Wien.jpg
A typical chemical laboratory of the 18th century
1757
Louis Claude Cadet de Gassicourt, while investigating arsenic compounds, creates Cadet's fuming liquid, later discovered to be cacodyl oxide, considered to be the first synthetic organometallic compound. [36]
1758
Joseph Black formulates the concept of latent heat to explain the thermochemistry of phase changes. [37]
1766
Henry Cavendish discovers hydrogen as a colorless, odourless gas that burns and can form an explosive mixture with air. [38]
1773–1774
Carl Wilhelm Scheele and Joseph Priestley independently isolate oxygen, called by Priestley "dephlogisticated air" and Scheele "fire air". [39] [40]
Antoine-Laurent de Lavoisier (1743-94) is considered the "Father of Modern Chemistry". David - Portrait of Monsieur Lavoisier (cropped).jpg
Antoine-Laurent de Lavoisier (1743–94) is considered the "Father of Modern Chemistry".
1778
Antoine Lavoisier, considered "The father of modern chemistry", [41] recognizes and names oxygen, and recognizes its importance and role in combustion. [42]
1787
Antoine Lavoisier publishes Méthode de nomenclature chimique, the first modern system of chemical nomenclature. [42]
1787
Jacques Charles proposes Charles's law, a corollary of Boyle's law, describes relationship between temperature and volume of a gas. [43]
1789
Antoine Lavoisier publishes Traité Élémentaire de Chimie , the first modern chemistry textbook. It is a complete survey of (at that time) modern chemistry, including the first concise definition of the law of conservation of mass, and thus also represents the founding of the discipline of stoichiometry or quantitative chemical analysis. [42] [44]
1797
Joseph Proust proposes the law of definite proportions, which states that elements always combine in small, whole number ratios to form compounds. [45]
1800
Alessandro Volta devises the first chemical battery, thereby founding the discipline of electrochemistry. [46]

19th century

John Dalton (1766-1844) Dalton John desk.jpg
John Dalton (1766–1844)
1803
John Dalton proposes Dalton's law, which describes relationship between the components in a mixture of gases and the relative pressure each contributes to that of the overall mixture. [47]
1805
Joseph Louis Gay-Lussac discovers that water is composed of two parts hydrogen and one part oxygen by volume. [48]
1808
Joseph Louis Gay-Lussac collects and discovers several chemical and physical properties of air and of other gases, including experimental proofs of Boyle's and Charles's laws, and of relationships between density and composition of gases. [49]
1808
John Dalton publishes New System of Chemical Philosophy, which contains first modern scientific description of the atomic theory, and clear description of the law of multiple proportions. [47]
1808
Jöns Jakob Berzelius publishes Lärbok i Kemien in which he proposes modern chemical symbols and notation, and of the concept of relative atomic weight. [50]
1811
Amedeo Avogadro proposes Avogadro's law, that equal volumes of gases under constant temperature and pressure contain equal number of molecules. [51]
Structural formula of urea Urea Structural Formula V2.svg
Structural formula of urea
1825
Friedrich Wöhler and Justus von Liebig perform the first confirmed discovery and explanation of isomers, earlier named by Berzelius. Working with cyanic acid and fulminic acid, they correctly deduce that isomerism was caused by differing arrangements of atoms within a molecular structure. [52]
1827
William Prout classifies biomolecules into their modern groupings: carbohydrates, proteins and lipids. [53]
1828
Friedrich Wöhler synthesizes urea, thereby establishing that organic compounds could be produced from inorganic starting materials, disproving the theory of vitalism. [52]
1832
Friedrich Wöhler and Justus von Liebig discover and explain functional groups and radicals in relation to organic chemistry. [52]
1840
Germain Hess proposes Hess's law, an early statement of the law of conservation of energy, which establishes that energy changes in a chemical process depend only on the states of the starting and product materials and not on the specific pathway taken between the two states. [54]
1847
Hermann Kolbe obtains acetic acid from completely inorganic sources, further disproving vitalism. [55]
1848
Lord Kelvin establishes concept of absolute zero, the temperature at which all molecular motion ceases. [56]
1849
Louis Pasteur discovers that the racemic form of tartaric acid is a mixture of the levorotatory and dextrotatory forms, thus clarifying the nature of optical rotation and advancing the field of stereochemistry. [57]
1852
August Beer proposes Beer's law, which explains the relationship between the composition of a mixture and the amount of light it will absorb. Based partly on earlier work by Pierre Bouguer and Johann Heinrich Lambert, it establishes the analytical technique known as spectrophotometry. [58]
1855
Benjamin Silliman, Jr. pioneers methods of petroleum cracking, which makes the entire modern petrochemical industry possible. [59]
1856
William Henry Perkin synthesizes Perkin's mauve, the first synthetic dye. Created as an accidental byproduct of an attempt to create quinine from coal tar. This discovery is the foundation of the dye synthesis industry, one of the earliest successful chemical industries. [60]
1857
Friedrich August Kekulé von Stradonitz proposes that carbon is tetravalent, or forms exactly four chemical bonds. [61]
1859–1860
Gustav Kirchhoff and Robert Bunsen lay the foundations of spectroscopy as a means of chemical analysis, which lead them to the discovery of caesium and rubidium. Other workers soon used the same technique to discover indium, thallium, and helium. [62]
1860
Stanislao Cannizzaro, resurrecting Avogadro's ideas regarding diatomic molecules, compiles a table of atomic weights and presents it at the 1860 Karlsruhe Congress, ending decades of conflicting atomic weights and molecular formulas, and leading to Mendeleev's discovery of the periodic law. [63]
1862
Alexander Parkes exhibits Parkesine, one of the earliest synthetic polymers, at the International Exhibition in London. This discovery formed the foundation of the modern plastics industry. [64]
1862
Alexandre-Emile Béguyer de Chancourtois publishes the telluric helix, an early, three-dimensional version of the periodic table of the elements. [65]
1864
John Newlands proposes the law of octaves, a precursor to the periodic law. [65]
1864
Lothar Meyer develops an early version of the periodic table, with 28 elements organized by valence. [66]
1864
Cato Maximilian Guldberg and Peter Waage, building on Claude Louis Berthollet's ideas, proposed the law of mass action. [67] [68] [69]
1865
Johann Josef Loschmidt determines exact number of molecules in a mole, later named Avogadro's number. [70]
1865
Friedrich August Kekulé von Stradonitz, based partially on the work of Loschmidt and others, establishes structure of benzene as a six carbon ring with alternating single and double bonds. [61]
1865
Adolf von Baeyer begins work on indigo dye, a milestone in modern industrial organic chemistry which revolutionizes the dye industry. [71]
Mendeleev's 1869 Periodic table Mendeleev's 1869 periodic table.png
Mendeleev's 1869 Periodic table
1869
Dmitri Mendeleev publishes the first modern periodic table, with the 66 known elements organized by atomic weights. The strength of his table was its ability to accurately predict the properties of as-yet unknown elements. [65] [66]
1873
Jacobus Henricus van 't Hoff and Joseph Achille Le Bel, working independently, develop a model of chemical bonding that explains the chirality experiments of Pasteur and provides a physical cause for optical activity in chiral compounds. [72]
1876
Josiah Willard Gibbs publishes On the Equilibrium of Heterogeneous Substances , a compilation of his work on thermodynamics and physical chemistry which lays out the concept of free energy to explain the physical basis of chemical equilibria. [73]
1877
Ludwig Boltzmann establishes statistical derivations of many important physical and chemical concepts, including entropy, and distributions of molecular velocities in the gas phase. [74]
1883
Svante Arrhenius develops ion theory to explain conductivity in electrolytes. [75]
1884
Jacobus Henricus van 't Hoff publishes Études de Dynamique chimique, a seminal study on chemical kinetics. [76]
1884
Hermann Emil Fischer proposes structure of purine, a key structure in many biomolecules, which he later synthesized in 1898. Also begins work on the chemistry of glucose and related sugars. [77]
1884
Henry Louis Le Chatelier develops Le Chatelier's principle, which explains the response of dynamic chemical equilibria to external stresses. [78]
1885
Eugen Goldstein names the cathode ray, later discovered to be composed of electrons, and the canal ray, later discovered to be positive hydrogen ions that had been stripped of their electrons in a cathode ray tube. These would later be named protons. [79]
1893
Alfred Werner discovers the octahedral structure of cobalt complexes, thus establishing the field of coordination chemistry. [80]
1894–1898
William Ramsay discovers the noble gases, which fill a large and unexpected gap in the periodic table and led to models of chemical bonding. [81]
1897
J. J. Thomson discovers the electron using the cathode ray tube. [82]
1898
Wilhelm Wien demonstrates that canal rays (streams of positive ions) can be deflected by magnetic fields, and that the amount of deflection is proportional to the mass-to-charge ratio. This discovery would lead to the analytical technique known as mass spectrometry. [83]
1898
Maria Sklodowska-Curie and Pierre Curie isolate radium and polonium from pitchblende. [84]
c. 1900
Ernest Rutherford discovers the source of radioactivity as decaying atoms; coins terms for various types of radiation. [85]

20th century

1903
Mikhail Semyonovich Tsvet invents chromatography, an important analytic technique. [86]
1904
Hantaro Nagaoka proposes an early nuclear model of the atom, where electrons orbit a dense massive nucleus. [87]
1905
Fritz Haber and Carl Bosch develop the Haber process for making ammonia from its elements, a milestone in industrial chemistry with deep consequences in agriculture. [88]
1905
Albert Einstein explains Brownian motion in a way that definitively proves atomic theory. [89]
1907
Leo Hendrik Baekeland invents bakelite, one of the first commercially successful plastics. [90]
Robert A. Millikan performed the oil drop experiment. Robert-millikan2.jpg
Robert A. Millikan performed the oil drop experiment.
1909
Robert Millikan measures the charge of individual electrons with unprecedented accuracy through the oil drop experiment, confirming that all electrons have the same charge and mass. [91]
1909
S. P. L. Sørensen invents the pH concept and develops methods for measuring acidity. [92]
1911
Antonius van den Broek proposes the idea that the elements on the periodic table are more properly organized by positive nuclear charge rather than atomic weight. [93]
1911
The first Solvay Conference is held in Brussels, bringing together most of the most prominent scientists of the day. Conferences in physics and chemistry continue to be held periodically to this day. [94]
1911
Ernest Rutherford, Hans Geiger, and Ernest Marsden perform the gold foil experiment, which proves the nuclear model of the atom, with a small, dense, positive nucleus surrounded by a diffuse electron cloud. [85]
1912
William Henry Bragg and William Lawrence Bragg propose Bragg's law and establish the field of X-ray crystallography, an important tool for elucidating the crystal structure of substances. [95]
1912
Peter Debye develops the concept of molecular dipole to describe asymmetric charge distribution in some molecules. [96]
The Bohr model of the atom Bohr atom model.svg
The Bohr model of the atom
1913
Niels Bohr introduces concepts of quantum mechanics to atomic structure by proposing what is now known as the Bohr model of the atom, where electrons exist only in strictly defined orbitals. [97]
1913
Henry Moseley, working from Van den Broek's earlier idea, introduces concept of atomic number to fix inadequacies of Mendeleev's periodic table, which had been based on atomic weight. [98]
1913
Frederick Soddy proposes the concept of isotopes, that elements with the same chemical properties may have differing atomic weights. [99]
1913
J. J. Thomson expanding on the work of Wien, shows that charged subatomic particles can be separated by their mass-to-charge ratio, a technique known as mass spectrometry. [100]
1916
Gilbert N. Lewis publishes "The Atom and the Molecule", the foundation of valence bond theory. [101]
1921
Otto Stern and Walther Gerlach establish concept of quantum mechanical spin in subatomic particles. [102]
1923
Gilbert N. Lewis and Merle Randall publish Thermodynamics and the Free Energy of Chemical Substances, first modern treatise on chemical thermodynamics. [103]
1923
Gilbert N. Lewis develops the electron pair theory of acid/base reactions. [101]
1924
Louis de Broglie introduces the wave-model of atomic structure, based on the ideas of wave–particle duality. [104]
1925
Wolfgang Pauli develops the exclusion principle, which states that no two electrons around a single nucleus may have the same quantum state, as described by four quantum numbers. [105]
The Schrödinger equation
1926
Erwin Schrödinger proposes the Schrödinger equation, which provides a mathematical basis for the wave model of atomic structure. [106]
1927
Werner Heisenberg develops the uncertainty principle which, among other things, explains the mechanics of electron motion around the nucleus. [107]
1927
Fritz London and Walter Heitler apply quantum mechanics to explain covalent bonding in the hydrogen molecule, [108] which marked the birth of quantum chemistry. [109]
1929
Linus Pauling publishes Pauling's rules, which are key principles for the use of X-ray crystallography to deduce molecular structure. [110]
1931
Erich Hückel proposes Hückel's rule, which explains when a planar ring molecule will have aromatic properties. [111]
1931
Harold Urey discovers deuterium by fractionally distilling liquid hydrogen. [112]
Model of two common forms of nylon Nylon6 and Nylon 66.png
Model of two common forms of nylon
1932
James Chadwick discovers the neutron. [113]
1932–1934
Linus Pauling and Robert Mulliken quantify electronegativity, devising the scales that now bear their names. [114]
1935
Wallace Carothers leads a team of chemists at DuPont who invent nylon, one of the most commercially successful synthetic polymers in history. [115]
1937
Carlo Perrier and Emilio Segrè perform the first confirmed synthesis of technetium-97, the first artificially produced element, filling a gap in the periodic table. Though disputed, the element may have been synthesized as early as 1925 by Walter Noddack and others. [116]
1937
Eugene Houdry develops a method of industrial scale catalytic cracking of petroleum, leading to the development of the first modern oil refinery. [117]
1937
Pyotr Kapitsa, John Allen and Don Misener produce supercooled helium-4, the first zero-viscosity superfluid, a substance that displays quantum mechanical properties on a macroscopic scale. [118]
1938
Otto Hahn discovers the process of nuclear fission in uranium and thorium. [119]
1939
Linus Pauling publishes The Nature of the Chemical Bond, a compilation of a decades worth of work on chemical bonding. It is one of the most important modern chemical texts. It explains hybridization theory, covalent bonding and ionic bonding as explained through electronegativity, and resonance as a means to explain, among other things, the structure of benzene. [110]
1940
Edwin McMillan and Philip H. Abelson identify neptunium, the lightest and first synthesized transuranium element, found in the products of uranium fission. McMillan would found a lab at Berkeley that would be involved in the discovery of many new elements and isotopes. [120]
1941
Glenn T. Seaborg takes over McMillan's work creating new atomic nuclei. Pioneers method of neutron capture and later through other nuclear reactions. Would become the principal or co-discoverer of nine new chemical elements, and dozens of new isotopes of existing elements. [120]
1944
Robert Burns Woodward and William von Eggers Doering successfully synthesized of quinine. This achievement, characterized of fully artificial chemicals as source for synthesis process, opened an era called as "Woodwardian era" or "chemical era" when many drugs and chemicals, as well as organic synthesis methods invented. Due to the growth of chemical industry, many fields has grown, such as drug industry. [121]
1945–1946
Felix Bloch and Edward Mills Purcell develop the process of nuclear magnetic resonance, an analytical technique important in elucidating structures of molecules, especially in organic chemistry. [122]
Jacob A. Marinsky, Lawrence E. Glendenin, and Charles D. Coryell perform the first confirmed synthesis of Promethium, filling in the last "gap" in the periodic table. [123]
1951
Linus Pauling uses X-ray crystallography to deduce the secondary structure of proteins. [110]
1952
Alan Walsh pioneers the field of atomic absorption spectroscopy, an important quantitative spectroscopy method that allows one to measure specific concentrations of a material in a mixture. [124]
1952
Robert Burns Woodward, Geoffrey Wilkinson, and Ernst Otto Fischer discover the structure of ferrocene, one of the founding discoveries of the field of organometallic chemistry. [125]
1953
James D. Watson and Francis Crick propose the structure of DNA, opening the door to the field of molecular biology. [126]
1957
Jens Skou discovers Na⁺/K⁺-ATPase, the first ion-transporting enzyme. [127]
1958
Max Perutz and John Kendrew use X-ray crystallography to elucidate a protein structure, specifically sperm whale myoglobin. [128]
1962
Neil Bartlett synthesizes xenon hexafluoroplatinate, showing for the first time that the noble gases can form chemical compounds. [129]
1962
George Olah observes carbocations via superacid reactions. [130]
1964
Richard R. Ernst performs experiments that will lead to the development of the technique of Fourier transform NMR. This would greatly increase the sensitivity of the technique, and open the door for magnetic resonance imaging or MRI. [131]
1965
Robert Burns Woodward and Roald Hoffmann propose the Woodward–Hoffmann rules, which use the symmetry of molecular orbitals to explain the stereochemistry of chemical reactions. [125]
1966
Hitoshi Nozaki and Ryōji Noyori discovered the first example of asymmetric catalysis (hydrogenation) using a structurally well-defined chiral transition metal complex. [132] [133]
1970
John Pople develops the Gaussian program greatly easing computational chemistry calculations. [134]
1971
Yves Chauvin offered an explanation of the reaction mechanism of olefin metathesis reactions. [135]
1975
Karl Barry Sharpless and group discover a stereoselective oxidation reactions including Sharpless epoxidation, [136] [137] Sharpless asymmetric dihydroxylation, [138] [139] [140] and Sharpless oxyamination. [141] [142] [143]
Buckminsterfullerene, C60 C60 Molecule.svg
Buckminsterfullerene, C60
1985
Harold Kroto, Robert Curl and Richard Smalley discover fullerenes, a class of large carbon molecules superficially resembling the geodesic dome designed by architect R. Buckminster Fuller. [144]
1991
Sumio Iijima uses electron microscopy to discover a type of cylindrical fullerene known as a carbon nanotube, though earlier work had been done in the field as early as 1951. This material is an important component in the field of nanotechnology. [145]
1994
First total synthesis of Taxol by Robert A. Holton and his group. [146] [147] [148]
1995
Eric Cornell and Carl Wieman produce the first Bose–Einstein condensate, a substance that displays quantum mechanical properties on the macroscopic scale. [149]

See also

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Dmitri Ivanovich Mendeleev was a Russian chemist and inventor. He is best known for formulating the Periodic Law and creating a version of the periodic table of elements. He used the Periodic Law not only to correct the then-accepted properties of some known elements, such as the valence and atomic weight of uranium, but also to predict the properties of three elements that were yet to be discovered.

<span class="mw-page-title-main">Oganesson</span> Chemical element, symbol Og and atomic number 118

Oganesson is a synthetic chemical element with the symbol Og and atomic number 118. It was first synthesized in 2002 at the Joint Institute for Nuclear Research (JINR) in Dubna, near Moscow, Russia, by a joint team of Russian and American scientists. In December 2015, it was recognized as one of four new elements by the Joint Working Party of the international scientific bodies IUPAC and IUPAP. It was formally named on 28 November 2016. The name honors the nuclear physicist Yuri Oganessian, who played a leading role in the discovery of the heaviest elements in the periodic table. It is one of only two elements named after a person who was alive at the time of naming, the other being seaborgium, and the only element whose eponym is alive as of 2023.

<span class="mw-page-title-main">Chemical symbol</span> Abbreviations used in chemistry

Chemical symbols are the abbreviations used in chemistry for chemical elements, functional groups and chemical compounds. Element symbols for chemical elements normally consist of one or two letters from the Latin alphabet and are written with the first letter capitalised.

Moscovium is a synthetic element with the symbol Mc and atomic number 115. It was first synthesized in 2003 by a joint team of Russian and American scientists at the Joint Institute for Nuclear Research (JINR) in Dubna, Russia. In December 2015, it was recognized as one of four new elements by the Joint Working Party of international scientific bodies IUPAC and IUPAP. On 28 November 2016, it was officially named after the Moscow Oblast, in which the JINR is situated.

<span class="mw-page-title-main">J. J. Thomson</span> British physicist (1856–1940)

Sir Joseph John Thomson was a British physicist and Nobel Laureate in Physics, credited with the discovery of the electron, the first subatomic particle to be found.

A period 1 element is one of the chemical elements in the first row of the periodic table of the chemical elements. The periodic table is laid out in rows to illustrate periodic (recurring) trends in the chemical behaviour of the elements as their atomic number increases: a new row is begun when chemical behaviour begins to repeat, meaning that analog elements fall into the same vertical columns. The first period contains fewer elements than any other row in the table, with only two: hydrogen and helium. This situation can be explained by modern theories of atomic structure. In a quantum mechanical description of atomic structure, this period corresponds to the filling of the 1s orbital. Period 1 elements obey the duet rule in that they need two electrons to complete their valence shell.

<span class="mw-page-title-main">Nikolay Semyonov</span> Soviet physical chemist

Nikolay Nikolayevich Semyonov, was a Soviet physicist and chemist. Semyonov was awarded the 1956 Nobel Prize in Chemistry for his work on the mechanism of chemical transformation.

<span class="mw-page-title-main">History of the periodic table</span> History of the periodic table of the elements

The periodic table is an arrangement of the chemical elements, structured by their atomic number, electron configuration and recurring chemical properties. In the basic form, elements are presented in order of increasing atomic number, in the reading sequence. Then, rows and columns are created by starting new rows and inserting blank cells, so that rows (periods) and columns (groups) show elements with recurring properties. For example, all elements in group (column) 18 are noble gases that are largely—though not completely—unreactive.

<span class="mw-page-title-main">History of chemistry</span> Historical development of chemistry

The history of chemistry represents a time span from ancient history to the present. By 1000 BC, civilizations used technologies that would eventually form the basis of the various branches of chemistry. Examples include the discovery of fire, extracting metals from ores, making pottery and glazes, fermenting beer and wine, extracting chemicals from plants for medicine and perfume, rendering fat into soap, making glass, and making alloys like bronze.

<span class="mw-page-title-main">History of molecular theory</span> Aspect of history

In chemistry, the history of molecular theory traces the origins of the concept or idea of the existence of strong chemical bonds between two or more atoms.

<span class="mw-page-title-main">Discovery of the neutron</span> Scientific background leading to the discovery of subatomic particles

The discovery of the neutron and its properties was central to the extraordinary developments in atomic physics in the first half of the 20th century. Early in the century, Ernest Rutherford developed a crude model of the atom, based on the gold foil experiment of Hans Geiger and Ernest Marsden. In this model, atoms had their mass and positive electric charge concentrated in a very small nucleus. By 1920, isotopes of chemical elements had been discovered, the atomic masses had been determined to be (approximately) integer multiples of the mass of the hydrogen atom, and the atomic number had been identified as the charge on the nucleus. Throughout the 1920s, the nucleus was viewed as composed of combinations of protons and electrons, the two elementary particles known at the time, but that model presented several experimental and theoretical contradictions.

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